All-solid-state proton batteries with a wide operation-temperature range of 160 °C

Lifen Long , Yike Huang , Yun Zheng , Yan Guo , Yinan Liu , Yingying Shen , Pingshan Jia , Zikang Xu , Shengyang Dong , Huaiyu Shao

Energy Materials ›› 2026, Vol. 6 ›› Issue (7) : 600071

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Energy Materials ›› 2026, Vol. 6 ›› Issue (7) :600071 DOI: 10.20517/energymater.2026.52
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All-solid-state proton batteries with a wide operation-temperature range of 160 °C
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Abstract

All-solid-state proton batteries are promising energy storage systems, in which the solid-state proton electrolyte plays an important role. However, achieving fast proton conduction over a wide temperature range is challenging. Here, we report zirconium hydrogen phosphate (ZHP) as a solid-state proton electrolyte. It shows ultra-high proton conductivity from -40 to 120 °C (0.15 to 66.76 mS·cm-1), a wide stability window (~5.5 V), and excellent long-term stability. Batteries using ZHP as electrolyte exhibit stable operation over a wide temperature range (160 °C), and retain 92% capacity after 12,000 cycles at room temperature. After 1,000 cycles, the batteries retain 100% capacity at -30 °C and 84.5% at 40 °C. This work provides new insights into the design and application of all-solid-state proton batteries capable of operating over a wide temperature range.

Keywords

Proton batteries / solid-state electrolyte / zirconium hydrogen phosphate / wide temperature range / high stability

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Lifen Long, Yike Huang, Yun Zheng, Yan Guo, Yinan Liu, Yingying Shen, Pingshan Jia, Zikang Xu, Shengyang Dong, Huaiyu Shao. All-solid-state proton batteries with a wide operation-temperature range of 160 °C. Energy Materials, 2026, 6 (7) : 600071 DOI:10.20517/energymater.2026.52

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References

[1]

Armand M.,Tarascon J.. Building better batteries Nature 2008 451 652 7

[2]

Xu Y.,Wu X.,Ji X.. The renaissance of proton batteries Small Struct. 2021 2 2000113

[3]

Yang J. L.,Cao J. M.,Zhao X. X..et al. Advanced aqueous proton batteries: working mechanism, key materials, challenges and prospects EnergyChem 2022 4 100092

[4]

Huang C.,Zhang W.,Zheng W.. Proton batteries shape the next energy storage Energy Storage Mater. 2023 61 102913

[5]

Su Z.,Guo H.,Zhao C.. Rational design of electrode-electrolyte interphase and electrolytes for rechargeable proton batteries Nano-Micro Lett. 2023 15 96 PMC10086093

[6]

Wu S.,Guo H.,Zhao C.. Challenges and opportunities for proton batteries: from electrodes, electrolytes to full-cell applications Adv. Funct. Mater. 2024 34 2405401

[7]

Su Z.,Ren W.,Guo H.,Peng X.,Chen X.,Zhao C.. Ultrahigh areal capacity hydrogen-ion batteries with MoO3 loading over 90 mg cm-2 Adv. Funct. Mater. 2020 30 2005477

[8]

Fleischmann S.,Sun Y.,Osti N. C..et al. Interlayer separation in hydrogen titanates enables electrochemical proton intercalation J. Mater. Chem. A. 2020 8 412 21

[9]

Jiang H.,Shin W.,Ma L..et al. A high-rate aqueous proton battery delivering power below -78 °C via an unfrozen phosphoric acid Adv. Energy Mater. 2020 10 2000968

[10]

Dong S.,Ren H.,Yang J..et al. An aqueous proton battery under alkaline electrolyte Energy Storage Mater. 2025 74 103888

[11]

Sui Y.,Ji X.. Anticatalytic strategies to suppress water electrolysis in aqueous batteries Chem. Rev. 2021 121 6654 95

[12]

Su Z.,Chen J.,Ren W..et al. “Water-in-sugar” electrolytes enable ultrafast and stable electrochemical naked proton storage Small 2021 17 2102375

[13]

Shen Y.,Liu B.,Liu X..et al. Water-in-salt electrolyte for safe and high-energy aqueous battery Energy Storage Mater. 2021 34 461 74

[14]

Xiao D.,Zhang L.,Li Z.,Dou H.,Zhang X.. Design strategies and research progress for Water-in-Salt electrolytes Energy Storage Mater. 2022 44 10 28

[15]

Xu Y.,Wu X.,Jiang H..et al. A non-aqueous H3PO4 electrolyte enables stable cycling of proton electrodes Angew. Chem. Int. Ed. 2020 59 22007 11

[16]

Vijayakumar V.,Ghosh M.. Torris A. T., A.; et al. Water-in-Acid gel polymer electrolyte realized through a phosphoric acid-enriched polyelectrolyte matrix toward solid-state supercapacitors ACS Sustain. Chem. Eng. 2018 6 12630 40

[17]

Sahoo R.,Mondal S.,Pal S. C.,Mukherjee D.,Das M. C.. Covalent-organic frameworks (COFs) as proton conductors Adv. Energy Mater. 2021 11 2102300

[18]

Karlsson C.,Strietzel C.,Huang H.,Sjödin M.,Jannasch P.. Nonstoichiometric triazolium protic ionic liquids for all-organic batteries ACS Appl. Energy Mater. 2018 1 6451 62

[19]

Wang H.,Emanuelsson R.,Karlsson C.,Jannasch P.,Strømme M.,Sjödin M.. Rocking-chair proton batteries with conducting redox polymer active materials and protic ionic liquid electrolytes ACS Appl. Mater. Interfaces 2021 13 19099 108 PMC8153541

[20]

Liao M.,Ji X.,Cao Y..et al. Solvent-free protic liquid enabling batteries operation at an ultra-wide temperature range Nat. Commun. 2022 13 6064 PMC9561716

[21]

Peron J.,Mani A.,Zhao X..et al. Properties of Nafion® NR-211 membranes for PEMFCs J. Membr. Sci. 2010 356 44 51

[22]

Li H.,Liu Y.. Nafion-functionalized electrospun poly(vinylidene fluoride) (PVDF) nanofibers for high performance proton exchange membranes in fuel cells J. Mater. Chem. A 2014 2 3783 93

[23]

Jones D. J.,Rozière J.. Recent advances in the functionalisation of polybenzimidazole and polyetherketone for fuel cell applications J. Membr. Sci. 2001 185 41 58

[24]

Alberti G.,Casciola M.. Layered metalIV phosphonates, a large class of inorgano-organic proton conductors Solid State Ionics 1997 97 177 86

[25]

Xie Z.,Wu H.,Wu Q.,Ai L.. Synthesis and performance of solid proton conductor molybdovanadosilicic acid RSC Adv. 2018 8 13984 8 PMC9079865

[26]

Nimir W.,Al-othman A.,Tawalbeh M.. Unveiling zirconium phytate-heteropolyacids-ionic liquids membranes for PEM fuel cells applications up to 150 °C Int. J. Hydrogen Energy 2025 107 3 14

[27]

Pili S.,Argent S. P.,Morris C. G..et al. Proton conduction in a phosphonate-based metal-organic framework mediated by intrinsic “free diffusion inside a sphere” J. Am. Chem. Soc. 2016 138 6352 5 PMC4882730

[28]

Chandra S.,Kundu T.,Kandambeth S..et al. Phosphoric acid loaded Azo (-N═N-) based covalent organic framework for proton conduction J. Am. Chem. Soc. 2014 136 6570 3

[29]

Dane A. Boysenand, .; Haile, S. M.; Liu, H.; Secco, R. A. High-temperature behavior of CsH2PO4 under both ambient and high pressure conditions Chem. Mater. 2003 15 727 36

[30]

Ponomareva V.,Shutova E.. High-temperature behavior of CsH2PO4 and CsH2PO4-SiO2 composites Solid State Ionics 2007 178 729 34

[31]

Haile S. M.,Chisholm C. R. I.,Sasaki K.,Boysen D. A.,Uda T.. Solid acid proton conductors: from laboratory curiosities to fuel cell electrolytes Faraday Discuss. 2007 134 17 39

[32]

Fop S.,Vivani R.,Masci S.,Casciola M.,Donnadio A.. Anhydrous superprotonic conductivity in the zirconium acid triphosphate ZrH5(PO4)3 Angew. Chem. Int. Ed. 2023 62 e202218421

[33]

Zhao F. J.,Zhu Y.,Chen Y..et al. Acidified nitrogen self-doped porous carbon with superprotonic conduction for applications in solid-state proton battery Small 2023 20 2305765

[34]

Ren X.,Song J.,Zhang G..et al. Covalent-organic framework with superior proton conduction for solid-state proton battery application ACS Mater. Lett. 2024 6 4036 41

[35]

Li H. Y.,Zhang G. Q.,Luo H. B..et al. Zwitterionic engineering of vinylene-linked covalent organic frameworks for superior protonic electrolytes Angew. Chem. Int. Ed. 2026 65 e7677012

[36]

Wang S.,Jiang H.,Dong Y..et al. Acid-in-clay electrolyte for wide-temperature-range and long-cycle proton batteries Adv. Mater. 2022 34 2202063

[37]

Meng F.,Dong X.,Wu H.,Wu Z.,Dou H.,Zhang X.. Crystalline hydrogen enhanced dual-acid quasi-solid-state proton battery Adv. Funct. Mater. 2025 35 2422079

[38]

Zhang X.,Zhang X.,Miao Y..et al. A rechargeable aqueous phenazine-Prussian blue proton battery with long cycle life J. Mater. Chem. A. 2023 11 7152 8

[39]

Lei Y.,Zhao W.,Yin J..et al. Discovery of a three-proton insertion mechanism in α-molybdenum trioxide leading to enhanced charge storage capacity Nat. Commun. 2023 14 5490 PMC10485074

[40]

Guo H.,Wu S.,Chen W..et al. Hydronium intercalation enables high rate in hexagonal molybdate single crystals Adv. Mater. 2023 36 2307118

[41]

Hou W.,Wang E.. Flow-injection amperometric detection of hydrazine by electrocalytic oxidation at a Prussian Blue film-modified electrode Anal. Chim. Acta 1992 257 275 80

[42]

Toby B. H.,Von Dreele R. B.. GSAS-II: the genesis of a modern open-source all purpose crystallography software package J. Appl. Crystallogr. 2013 46 544 9

[43]

Gilane A.,Fop S.,Sher F.,Smith R. I.,Mclaughlin A. C.. The relationship between oxide-ion conductivity and cation vacancy order in the hybrid hexagonal perovskite Ba3VWO8.5 J. Mater. Chem. A. 2020 8 16506 14

[44]

Chen H.,Wong L. L.,Adams S.. SoftBV - a software tool for screening the materials genome of inorganic fast ion conductors Acta Crystallogr. B. Struct. Sci. Cryst. Eng. Mater. 2019 75 18 33

[45]

Wong L. L.,Phuah K. C.,Dai R.,Chen H.,Chew W. S.,Adams S.. Bond valence pathway analyzer - an automatic rapid screening tool for fast ion conductors within softBV Chem. Mater. 2021 33 625 41

[46]

Krogh Andersen A. M.,Norby P.,Hanson J. C.,Vogt T.. ChemInform abstract: preparation and characterization of a new 3-dimensional zirconium hydrogen phosphate, τ-Zr(HPO4)2. determination of the complete crystal structure combining synchrotron X-ray single-crystal diffraction and neutron powder diffraction ChemInform 2010 29 chin.199824003

[47]

Capitani D.,Casciola M.,Donnadio A.,Vivani R.. High yield precipitation of crystalline α-zirconium phosphate from oxalic acid solutions Inorg. Chem. 2010 49 9409 15

[48]

Ma N.,Kosasang S.,Yoshida A.,Horike S.. Proton-conductive coordination polymer glass for solid-state anhydrous proton batteries Chem. Sci. 2021 12 5818 24 PMC8179665

[49]

Hurd J. A.,Vaidhyanathan R.,Thangadurai V.,Ratcliffe C. I.,Moudrakovski I. L.,Shimizu G. K. H.. Anhydrous proton conduction at 150 °C in a crystalline metal-organic framework Nature Chem. 2009 1 705 10

[50]

Horike S.,Umeyama D.,Inukai M.,Itakura T.,Kitagawa S.. Coordination-network-based ionic plastic crystal for anhydrous proton conductivity J. Am. Chem. Soc. 2012 134 7612 5

[51]

Wang L. S.,Patel S. V.,Truong E.,Hu Y.,Haile S. M.. Phase behavior and superprotonic conductivity in the system (1-x)CsH2PO4 - xH3PO4: discovery of off-stoichiometric α-[Cs1-xHx]H2PO4 Chem. Mater. 2022 34 1809 20

[52]

Ohkoshi S. I.,Nakagawa K.,Tomono K.,Imoto K.,Tsunobuchi Y.,Tokoro H.. High proton conductivity in prussian blue analogues and the interference effect by magnetic ordering J. Am. Chem. Soc. 2010 132 6620 1

[53]

Vilčiauskas L.,De Araujo C. C.,Kreuer K.. Proton conductivity and diffusion in molten phosphinic acid (H3PO2): the last member of the phosphorus oxoacid proton conductor family Solid State Ionics 2012 212 6 9

[54]

Krueger R. A.,Vilčiauskas L.,Melchior J.,Bester G.,Kreuer K.. Mechanism of efficient proton conduction in diphosphoric acid elucidated via first-principles simulation and NMR J. Phys. Chem. B. 2015 119 15866 75

[55]

Andersen E.. α-zirconium hydrogenphosphate, monohydrate. preparation, chemical properties and ac conductivity Solid State Ionics 1982 7 301 6

[56]

Yu J.,Yu H.,Yao Z..et al. A water-stable open-framework zirconium(iv) phosphate and its water-assisted high proton conductivity CrystEngComm 2021 23 6093 7

[57]

Colodrero R. M. P.,Olivera-pastor P.,Cabeza A.,Bazaga-garcía M.. Properties and applications of metal phosphates and pyrophosphates as proton conductors Materials 2022 15 1292 PMC8875660

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